Zoom lens and imaging apparatus
a technology which is applied in the field of zoom lens and imaging apparatus, can solve the problems of not having not saying to have a sufficiently high magnification, and not saying to suppress a change in various types of aberration
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example 1
[0118]A cross-sectional view of a configuration and a movement trajectory of the zoom lens of Example 1 are illustrated in FIG. 1, and the method and configuration of illustration are described above. Thus, a duplicate description will be partially omitted here. The zoom lens of Example 1 consists of, in order from the object side to the image side, the first lens group G1 having a positive refractive power, the second lens group G2 having a negative refractive power, the aperture stop St, the third lens group G3 having a positive refractive power, the fourth lens group G4 having a negative refractive power, and the fifth lens group G5 having a positive refractive power. In the case of the zooming, all lens groups are moved along the optical axis Z by changing all intervals between the adjacent lens groups. The aperture stop St, the third lens group G3, and the fifth lens group G5 are moved as a single unit in the case of the zooming. The first lens group G1 consists of three lenses...
example 2
[0135]FIG. 4 illustrates across-sectional view of a configuration and a movement trajectory of a zoom lens of Example 2. The zoom lens of Example 2 has the same configuration as the summary of the zoom lens of Example 1. For the zoom lens of Example 2, fundamental lens data is shown in Table 4, specifications and variable surface intervals are shown in Table 5, aspherical coefficients are shown in Table 6, and aberration diagrams are illustrated in FIG. 5.
[0136]
TABLE 4Example 2SnRDNdυdθgFMaterial175.434041.7001.7282528.460.60772S-TIH10.OHARA250.929457.5101.4970081.610.53887FCD1.HOYA3655.045120.150475.296073.7721.6180063.330.54414S-PHM52.OHARA5207.30462DD[5]*635.434651.6001.8062540.910.56920L-LAH53.OHARA*710.888016.9558−65.179960.7101.8515040.780.56958S-LAH89.OHARA9128.936344.0001.8928620.360.63944S-NPH4.OHARA10−24.239400.649*11−18.134110.7001.8540040.380.56890L-LAH85V.OHARA*12−99.70650DD[12]13 (St)∞0.800*1416.558455.1061.5831359.380.54237L-BAL42.OHARA*15−93.399240.1501633.328664.899...
example 3
[0139]FIG. 6 illustrates a cross-sectional view of a configuration and a movement trajectory of a zoom lens of Example 3. The zoom lens of Example 3 has the same configuration as the summary of the zoom lens of Example 1. For the zoom lens of Example 3, fundamental lens data is shown in Table 7, specifications and variable surface intervals are shown in Table 8, aspherical coefficients are shown in Table 9, and aberration diagrams are illustrated in FIG. 7.
[0140]
TABLE 7Example 3SnRDNdυdθgFMaterial174.979771.7001.7282528.460.60772S-TIH10.OHARA250.135337.5101.4970081.610.53887FCD1.HOYA3528.121570.150473.286783.9861.6180063.330.54414S-PHM52.OHARA5224.08849DD[5]*636.138081.6001.8540040.380.56890L-LAH85V.OHARA*711.035006.5008−73.753880.7001.8348142.720.56486S-LAH55V.OHARA945.825394.9651.8080922.760.63073S-NPH1W.OHARA10−22.639810.615*11−18.120730.7001.8540040.380.56890L-LAH85V.OHARA*12−83.11136DD[12]13 (St)∞0.800*1416.444614.4571.5831359.380.54237L-BAL42.OHARA*15−99.998710.5401636.096904....
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